Projets novateurs réalisés

Optimizing Mobile Unit Deployment Based on Accessibility and Risk Indicators

This project will extend the Maximal Covering Location Problem with Accessibility Indicators (MCLPA) by incorporating mobile units (MUs) to enhance service areas and optimize accessibility. The proposed Maximal Covering Location Problem with Accessibility Indicators and Mobile Units (MCLPAMU) will consider facilities and MUs with varying service areas and capacities, as well as customer mobility areas. The model will aim to optimize six accessibility indicators: coverage, minimum access, mobility costs, proximity of service, number of opportunities, and geographical segregation. The MCLPAMU will be applied to the context of COVID-19 testing centers in Mexico, demonstrating its potential to improve the efficiency of medical services during a pandemic. By integrating data analytics, the model will optimize the locations and capacities of testing centers, forecast future outbreaks, and enable proactive resource allocation, ultimately enhancing the response to public health crises.

Just in Time Compilation for Quantum Devices

Xanadu’s mission is to build quantum computers that are useful and available to people everywhere. Our company was
founded in 2016, and has grown to approximately 200 employees today, with headquarters in Toronto, Canada. Xanadu
develops the full stack of quantum computing (QC) technology: theory, hardware, cloud service, software and applications.
This project is in Xanadu’s Software team, who develop and maintain the open-source PennyLane toolkit.
Current software is capable of compiling and optimizing small circuits for today’s QC hardware. Meanwhile, the industry is
working towards the construction of much larger QCs which will be capable of running full error-correction and applications
that are far beyond the reach of today’s systems. Current compilers are not able to compile codes of interest for those future
hardware systems or simulators, and Xanadu has launched the Catalyst compiler specifically targeting this domain. There
are many unanswered questions about how to best compile large-scale quantum programs onto large-scale hardware, and
this project will work to address some of them, as part of the larger Xanadu team developing Catalyst.
Xanadu anticipates significant near-term benefits through the successful completion of this project by improving the
capability and performance of our compiler software, to assert a leading position as the software toolkit of choice for today’s
researchers and future generations of QC users.

Design and Characterization of Filter Inductors for Wide-Bandgap Power Stages

Urban tree growth & soil analysis in the Upper Rhine Valley

Qualifying polymers for hydroponic food cultivation

Innovative Catalyst Development for Clean Energy Technology

What does the Fox(o6os) say? An investigation of the therapeutic potential in CVDs

Theoretical description of pattern scaling in growing and regenerating tissues

Internship

Real Estate Feasibility on Green/Energy Efficient Community: Case on Waßmanndorf near Berlin Airport

In vitro characterisation of condensate formation in human Neurogenin-3

Towards High Precision Spectroscopy on Antihydrogen

The matter and antimatter asymmetry that is observed within our universe is one of the more prevasive questions remaining in modern physics today. While theoretically appearing in equal amounts, physicists observe a distinct lack of antimatter in our universe, the nature of which is unknown. The Antihydrogen Laser Physics Apparatus (ALPHA) Collaboration is an international collaboration based at the European Organization for Nuclear Research (CERN) in Geneva, Switzerland, that is focused on the study of the antihydrogen atom in search for possible deviations that may have resulted in the observed matter-antimatter asymmetry we see today. Through detailed studies and comparisons between the antihydrogen atom with the hydrogen atom, which is one of the most well-known atoms in atomic physics, we are searching for possible discrepancies in the constitution and interactions within the two atoms. The objective of the proposed project is to aid in the improvement and development of various parts of the infrastructure at the ALPHA Collaboration in order to perform high precision spectroscopy measurements. Our aim is to improve these spectroscopic measurements through the fine control of the atoms quantum states and energies with the use of microwaves and advanced magnetic field measurements.